FreeCorneal Analysis
- 3D corneal model from slit lamp photos
- Precise lesion coordinate measurement
- Surface area calculation and analysis
AI-Powered Ophthalmology
Refractive Surgery,
Grounded in Science
NeuralVision develops advanced software for ophthalmic imaging and refractive surgery, combining clinical insight with artificial intelligence, image analysis, and computational modeling to support more objective, precise, and usable care.
Real-time clinical analysis
Our Approach
Scientific rigor, clinical utility
NeuralVision builds software for ophthalmic imaging and refractive surgery by combining clinical expertise with image analysis, computational methods, and artificial intelligence. Our aim is to make advanced analytical capability more usable in practice, helping clinicians measure more objectively, interpret findings more clearly, and work with greater precision.
Scientific Foundation
Our work is grounded in imaging science, optics, mathematics, and clinical reasoning.
Clinical Utility
We build tools that support real decisions in refractive surgery, corneal imaging, and clinical follow-up.
Broader Access
Our software extends advanced analytical capability across ophthalmic practice, from broader diagnostic support to more refined quantitative assessment for expert users.
Products
AI-Powered Tools for Refractive Surgery
Each NeuralVision product addresses a specific clinical or analytical need in ophthalmic imaging and refractive surgery, with an emphasis on objective measurement, advanced analysis, practical workflow, and interpretable results.
Free
FreeOCT Analysis
- Patented corneal haze detection algorithm
- Post-crosslinking demarcation line analysis
- Objective metrics for CXL patient follow-up
FreeToric IOL Fix (Beta)
- Targeted corrections for misaligned Toric IOLs
- ICL rotation adjustment calculations
- Slit lamp imaging-based analysis
Innovation
Research & Development
Research and development are central to how we build. NeuralVision works on problems in ophthalmic imaging and refractive surgery that require careful modeling, robust validation, and translation into usable clinical software. Our work draws on clinical insight, image analysis, artificial intelligence, and computational science to develop tools with practical clinical value.
Modeling
We develop methods that reflect the structure and complexity of real ophthalmic data.
Validation
We prioritize reproducibility, interpretability, and performance that holds up in clinical settings.
Translation
We turn analytical advances into usable tools for ophthalmologists, researchers, and industry partners.